Energy change
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Energy Crisis
Transition to Clean Energy
Over the past 200 years, there has been a dramatic shift in how we obtain energy. These changes were driven by innovations such as the steam engine, oil lamps, internal combustion engines, and large-scale electricity usage. The global transition from an agricultural economy to an industrial economy required new energy sources to provide more efficient energy input.
Environmental Crisis
Photovoltaic Power Generation as an Important Tool for Carbon Emission Reduction
In terms of carbon emission reduction, China has developed around 200 GW of photovoltaic system capacity, and the electricity produced by these systems annually is equivalent to the energy output of 100 million tons of crude oil. Consuming 100 million tons of crude oil would produce approximately 350 million tons of carbon emissions, whereas producing 200 GW of photovoltaic systems generates about 10.5 million tons of carbon emissions. In other words, for every ton of carbon emissions produced in the manufacturing of photovoltaic systems, the electricity generated by these systems will reduce 33 tons of carbon emissions annually.
From an energy input-output perspective, producing a 1 kW photovoltaic system requires around 300 kWh of electricity. This 1 kW system can generate approximately 1500 kWh of electricity per year and will continue to generate power for at least 20 years. This means photovoltaic manufacturing is a typical example of exchanging "small energy" for "large energy," making it a significant industry in terms of both energy production and carbon emission reduction.
Digital MEIKE
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Monocrystalline Silicon Manufacturing" Full-Process Production System
1.Material Washing and Ingredient Preparation: Automated loading and unmanned delivery.
2.Crystal Growth: AI-controlled centralized management and automatic flow.
3.Cutting, Squaring, and Polishing: Automated machining.
4.Rod Preparation and Adhesion: Automated rod allocation, timing, and scheduling.
5.Cutting: Closed-loop traceability.
6.De-bonding, Cleaning, and Sorting: Coding and analysis.
7.Monocrystalline Silicon Wafers.
8.Quality Traceability.
Digital MEIKE
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Lean Production System
◎ Digitalization of planning, scheduling, and monitoring
◎ Establish various boards and production control centers
◎ Automatic data flow and task transfer
◎ Automatically collect status, process, and quality data
◎ Standardized processes for proper response to design changes
Just-in-time Production
◎ Final assembly-driven processing and logistics scheduling
◎ Check for completeness before plan release and start of work
◎ Various logistics delivery modes to synchronize with high-paced production